Making MGAIC

Accelerating open, cross-disciplinary
generative AI research with real-world impact

Advancing the frontiers of generative AI

MIT researchers are pushing the boundaries of model architecture, safety, and alignment to enable generative AI systems that are more capable, trustworthy, and open. These breakthroughs support discovery and creativity across science, health, education, and the arts.

Designing AI that elevates human work

MGAIC supports the development of tools that amplify human intelligence—enhancing productivity, creativity, and decision-making in real-world domains. The goal is not to replace people, but to create AI that collaborates, augments, and empowers.

Engineering for scalable, responsible deployment

Scaling generative AI requires addressing critical infrastructure challenges—from compute efficiency and power consumption to data integrity and system robustness. MIT’s cross-disciplinary expertise helps design AI systems that are both powerful and sustainable.

Expanding access through education

To ensure AI benefits are broadly shared, MGAIC promotes open-source tools, new models of learning, and global collaborations. With a focus on inclusion and opportunity, we are helping shape a future where everyone can participate in AI innovation.

“The remarkable progress in generative AI we’ve seen over the past year has been fueled by advances in fundamental science and engineering — areas where MIT excels.”

— Sally Kornbluth, President of MIT

Our founding members

Funded projects

Voices of the poor

This project explores how generative AI can help uncover, synthesize, and elevate the lived experiences of low-income communities that are often excluded from traditional policy design. By analyzing qualitative data and generating actionable insights, the team aims to build tools that policymakers and researchers can use to better understand and serve vulnerable populations.

Enabling inductive reasoning

This flagship project pushes the frontier of generative models by embedding principles of scientific reasoning. The team is developing new architectures that go beyond data fitting to enable AI to propose hypotheses, simulate outcomes, and guide experimental design. The goal: accelerate discoveries in physics, chemistry, and materials by teaching AI to reason like a scientist.